AIPodCli 0.6.3

AI-native application framework where AI builds software and a DI runtime executes it

AIPod

AI-native application framework where AI builds software and a dependency-injected runtime executes it.

Describe your system in natural language. AI generates reusable components, plans execution pipelines, and the runtime assembles and executes them via dependency injection.

Why AIPod?

AI coding tools today fall into two camps:

Tool	What it does	The problem
Copilot, Cursor	Autocomplete lines as you type	You still write the architecture
v0, Bolt, Lovable	Generate entire projects from a prompt	One-shot, no memory. You take over after generation.

Both leave AI out of the system's evolution. After the initial generation, AI is gone. The codebase grows, but AI doesn't grow with it.

AIPod is different:

• AI has memory. Every component you build (hand-written OR AI-generated) joins a shared Bean Pool. AI sees the pool and reuses components in future work.
• You and AI share a platform. The DI container, pipeline DSL, and component contracts are the common language. AI generates code that follows the same rules as your hand-written code.
• The system accumulates capability. Round 1 you create a SqliteStore. Round 3 you compose a pipeline that uses SqliteStore, DataCollector, and a hand-written AnalyticsEngine — seamlessly.

It's not AI writing code for you. It's AI building the system WITH you, on a shared platform.

Quick Start

# 1. Install (Python 3.10+)
pip install aipodcli

# 2. Configure once (global, shared across all projects)
aipod config set OPENAI_API_KEY sk-your-key
aipod config set OPENAI_BASE_URL https://api.openai.com/v1
aipod config set OPENAI_MODEL deepseek-chat

# 3. Create a project
mkdir my-app && cd my-app
aipod init
aipod pod "a CLI todo app with SQLite storage, add/list/complete/delete"

# 4. Run it
python main.py add "Buy groceries"
python main.py list

That's it. Zero code written by you.

Want to inspect the runtime before connecting an LLM? Run the checked-in Todo CLI example; it uses the same Bean Pool, DI container, and PipelineRunner without making an API call.

What Just Happened

aipod init
  → modules/, pipelines/, config.toml, routes.toml, beans_config.json

aipod pod "a CLI todo app..."
  → AI decomposes requirement into components
  → AI generates 4 components (TodoStore, AddTodo, ListTodo, CompleteTodo)
  → AI composes 3 pipelines (add, list, complete)
  → AI generates entry point (main.py with argparse)
  → Registers everything in routes.toml and beans_config.json

The Growing System

Every component you create makes the system smarter:

Round 1:  aipod create --name SqliteStore --desc "SQLite storage"
          → Bean Pool: [ConfigStore, SqliteStore]

Round 2:  aipod create --name DataCollector --desc "generates sales data"
          → Bean Pool: [..., DataCollector]

Round 3:  aipod create --name DataWriter --desc "depends on SqliteStore, writes to DB"
          → AI sees SqliteStore in the pool, auto-wires it as dependency

Compose:  aipod compose "collect sales and write to SQLite"
          → AI picks [DataCollector, DataWriter] from the pool
          → Generates pipeline: (S(DataCollector) | S(DataWriter)).execute_all(ctx)

The bean pool grows with every create. AI sees more components, builds richer pipelines. This is not a one-shot code generator — it's a system that accumulates capability.

Commands

Command	What it does	Needs AI
aipod init	Create project skeleton	❌
aipod config set KEY VALUE	Set global config (once, shared everywhere)	❌
aipod config list	Show global config	❌
aipod entry "desc"	AI generates entry point file	✅
aipod visualize	Generate an interactive component and Pipeline graph	❌
aipod create --name X --desc "..."	AI generates one component	✅
aipod add --name X --class-path Y	Register hand-written component	❌
aipod compose "instruction"	AI generates pipeline	✅
aipod pod "requirement"	AI generates components + pipelines + entry	✅
aipod pod --file req.md	Same, reads from file	✅

Two Ways to Build

Fast: pod (one-shot)

aipod init
aipod pod "e-commerce order system with inventory, payment, and notifications"
python main.py

AI generates everything: components, pipelines, entry point, config.

Step-by-step: create → compose

aipod init

# Build component pool incrementally
aipod create --category provider --name SqliteStore \
    --desc "SQLite storage, reads database.sqlite_path from ConfigStore"

aipod create --category service --name DataCollector \
    --desc "generates random sales records"

aipod create --category service --name DataWriter \
    --desc "depends on SqliteStore, writes records to database"

# Compose pipelines from the pool
aipod compose "collect sales data and write to SQLite" --name sales_flow

# Generate entry point
aipod entry "a CLI data processing tool"

# Run
python main.py sales_flow

How It Works

The Bean Pool

Every component is registered in beans_config.json:

{
  "id": "DataWriter",
  "class_path": "modules.datawriter.DataWriter",
  "dependencies": ["SqliteStore"],
  "inputs": {"raw_sales": "list — sales records"},
  "outputs": {"written_count": "int — rows written"}
}

AI reads the pool when generating new components and composing pipelines. The pool is the memory of your system.

Components

AI generates classes with constructor injection:

class DataWriter:
    @inject
    def __init__(self, sqlite_store: SqliteStore, config_store: ConfigStore):
        self.sqlite_store = sqlite_store           # Auto-injected by runtime
        self.batch_size = config_store.get("writer.batch_size", 100)

    def execute(self, ctx: PipelineContext) -> dict:
        records = ctx.get("raw_sales", [])
        for r in records:
            self.sqlite_store.insert("sales", r)
        ctx.set("written_count", len(records))
        return {"status": "success"}

• service — business logic, has execute(ctx) and can be placed in a pipeline
• provider — infrastructure (DB, cache, HTTP client), exposes custom methods and is injected into services

Pipelines

AI generates pipeline files using pipe syntax:

from ai_pod_cli.context import PipelineContext
from ai_pod_cli.config import load_beans
from ai_pod_cli.container import build_container, Pod
from modules.services.datacollector import DataCollector
from modules.services.datacleaner import DataCleaner
from modules.services.datawriter import DataWriter
from modules.services.notifier import Notifier

def run(ctx: PipelineContext):
    beans = load_beans()
    S = Pod(build_container(beans))

    # Chain: DataCollector → DataCleaner → DataWriter
    (S(DataCollector) | S(DataCleaner) | S(DataWriter)).execute_all(ctx)

    # Branching
    if ctx.get("alert_needed"):
        (S(Notifier)).execute_all(ctx)

    return ctx.summary()

Global Configuration

Set once, use everywhere:

aipod config set OPENAI_API_KEY sk-xxx       # stored in ~/.aipod/config.toml
aipod config set OPENAI_BASE_URL https://...

Components read project config through injected ConfigStore:

# config.toml (per-project)
[database]
sqlite_path = "data.db"    # AI suggested this when creating SqliteStore

config_store.get("database.sqlite_path", "data.db")

Generation → Execution

┌──────────────────────────┐
│   You + AI (build time)  │
│                          │
│  aipod init              │  → project skeleton
│  aipod config set ...    │  → global config
│  aipod pod "big req"     │  → components + pipelines + entry
│  aipod create ...        │  → single component (pool grows)
│  aipod compose "..."     │  → pipeline + route
│  aipod entry "desc"      │  → entry point file
│                          │
│  You review the code     │
│  You git commit          │
└──────────────────────────┘
            ↓
┌──────────────────────────┐
│   Runtime (run time)     │
│                          │
│  python main.py cmd      │
│  PipelineRunner loads    │
│  DI container assembles  │
│  Pipeline executes       │
│  Context flows data      │
└──────────────────────────┘

AI never runs your code. It generates it. You review, commit, and execute when ready.

Key APIs

API	Methods
PipelineContext	ctx.params, ctx.set(k,v), ctx.get(k,d), ctx.summary()
ConfigStore	get("section.key", default), get_section("name"), sections()
Pod	S = Pod(container), S(Class), (S(A) | S(B)).execute_all(ctx)
PipelineRunner	PipelineRunner(), route_names(), run("name", params)

Project Structure

project/
├── main.py                  ← AI-generated entry point
├── config.toml              ← Project config (you + AI)
├── routes.toml              ← Pipeline routes (compose/pod auto-registers)
├── beans_config.json        ← Component pool (AI maintains)
├── modules/                 ← Your component pool
│   ├── providers/
│   │   └── sqlitestore.py
│   └── services/
│       ├── datacollector.py
│       └── datawriter.py
└── pipelines/               ← AI-composed pipelines
    └── sales_flow.py

Security

All AI-generated code receives static validation before it is written or registered:

• Blocks: eval(), exec(), compile(), __import__(), dunder chain access
• Checks syntax plus the required component/Pipeline entry-point contract
• If validation fails, shows the exact errors and asks before sending them to the LLM for a correction attempt (at most three attempts)
• Does NOT sandbox imports, filesystem access, networking, or process execution. Review generated code before running it locally.

Visualize Your System

Generate a standalone interactive graph of the current Bean Pool, dependency edges, routes, and statically detected Pipeline service chains:

aipod visualize
# writes aipod-graph.html

aipod visualize --open

Click a component to inspect its class path, contract, dependencies, and description. The command only reads project metadata and Python source; it never imports or executes generated components.

Install

pip install aipodcli

Roadmap

• Component contract validation (typed inputs/outputs)
• Pipeline static type checking
• Component versioning
• Visual pipeline graph
• Incremental generation (AI reuses existing components)
• Multi-language component support

License

MIT